void DispatcherPrivate::run_steps()
{
int now = _wall.read_us();
TRACE(("run_steps(): starting, now=%i.\r\n", now));
clear_signals();
clear_normal_step();
run_tasks(StateCommited);
#ifdef DISPATCH_DEBUG
int tick_before = get_tick();
#endif
// no commited nodes left, see if we have enough time for a normal loop
for(;;)
{
int tdiff = wall_diff(now);
if(tdiff >= _clock_multiplier)
break;
run_tasks(StateNormal | StateUrgent);
DelayedThread::signal_wait(SIGNAL_CHANGED, (_clock_multiplier - tdiff) / 1000);
}
run_tasks(StateUrgent);
TRACE(("Dispatcher wait end (diff=%i, tdiff=%i).\r\n", wall_diff(now), get_tick() - tick_before));
}
void Start_OS()
{
while(1)
{
run_tasks();
}
}
/*the ticker thread function that executes the filters */
void * ms_ticker_run(void *arg)
{
MSTicker *s=(MSTicker*)arg;
int lastlate=0;
int precision=2;
int late;
precision = set_high_prio(s);
s->thread_id = ms_thread_self();
s->ticks=1;
s->orig=s->get_cur_time_ptr(s->get_cur_time_data);
ms_mutex_lock(&s->lock);
while(s->run){
uint64_t late_tick_time=0;
s->ticks++;
/*Step 1: run the graphs*/
{
#if TICKER_MEASUREMENTS
MSTimeSpec begin,end;/*used to measure time spent in processing one tick*/
double iload;
ms_get_cur_time(&begin);
#endif
run_tasks(s);
run_graphs(s,s->execution_list,FALSE);
#if TICKER_MEASUREMENTS
ms_get_cur_time(&end);
iload=100*((end.tv_sec-begin.tv_sec)*1000.0 + (end.tv_nsec-begin.tv_nsec)/1000000.0)/(double)s->interval;
s->av_load=(smooth_coef*s->av_load)+((1.0-smooth_coef)*iload);
#endif
}
ms_mutex_unlock(&s->lock);
/*Step 2: wait for next tick*/
s->time+=s->interval;
late=s->wait_next_tick(s->wait_next_tick_data,s->time);
if (late>s->interval*5 && late>lastlate){
ms_warning("%s: We are late of %d miliseconds.",s->name,late);
late_tick_time=ms_get_cur_time_ms();
}
lastlate=late;
ms_mutex_lock(&s->lock);
if (late_tick_time){
s->late_event.lateMs=late;
s->late_event.time=late_tick_time;
}
s->late_event.current_late_ms = late;
}
ms_mutex_unlock(&s->lock);
unset_high_prio(precision);
ms_message("%s thread exiting",s->name);
ms_thread_exit(NULL);
s->thread_id = 0;
return NULL;
}
void main()
{
__disable_interrupt();
init_core();
init_device();
init_wdt();
__enable_interrupt();
microrl_init (pointerMicrorl, &serprintf);
microrl_set_execute_callback (pointerMicrorl, execute);
microrl_set_complete_callback (pointerMicrorl, complet);
microrl_set_sigint_callback (pointerMicrorl, sigint);
init_app_settings();
print_revision();
DEBUG_PRINTF("FlashMem: %s %s\n\r",
get_family_desc_at25df(),
get_density_desc_at25df());
enable_default_lis3dh();
init_tasks();
init_reco_drift();
init_can_j1939();
DEBUG_PRINTF("\r\n\r\n");
while (1) {
if (pointerRingBuff->size(pointerRingBuff) > 0) {
const uint8_t data = pointerRingBuff->get(pointerRingBuff);
if (!get_proto_type()) {
microrl_insert_char (pointerMicrorl, data);
} else {
sdp_insert_char(data);
}
}
poll_can_msg();
run_tasks();
clear_wdt();
}
}
executor_thread_pool::executor_thread_pool(
instrumentation::instrumentation & instr,
const config & conf)
:
task_guague_(instr.add_gauge(k_exec_pool_service, k_exec_pool_desc)),
finished_threads_(conf.executor_pool_size, 0),
next_thread_(0),
tasks_(conf.executor_pool_size)
{
auto run_fn = [=](const int i)
{
run_tasks(i);
};
for (size_t i = 0; i < conf.executor_pool_size; i++) {
tasks_[i].set_capacity(k_max_queue_size);
threads_.push_back(std::move(std::thread(run_fn, i)));
}
}
/*
* Do mad wild shit that makes us metric boatloads of cash money
*/
int main(int argc, char** argv) {
ugly_init(99);
if (argc < 2) {
DLOG("(pass a mq host as argument, otherwise we use localhost)\n");
setup_mq("localhost");
} else {
DLOG("Connecting to %s\n", argv[1]);
setup_mq(argv[1]);
}
if (argc < 3) {
key = "karl_loves_you";
DLOG("using default shared key of %s\n", key);
} else {
key = argv[2];
DLOG("using supplied shared key of %s\n", key);
}
while (1) {
run_tasks();
}
return (EXIT_SUCCESS);
}